العربية Biomedical Engineering Program
The Biomedical Engineering Program at the University of Science and Technology is the first specialized academic program of its kind in the Republic of Yemen. Established in 2006, the program aims to prepare graduates who are academically and professionally qualified, equipped with the engineering knowledge and skills necessary for the design, operation, and maintenance of medical systems and devices. It also focuses on medical signal and image analysis, as well as applications of sensors and biomaterials, in alignment with professional requirements and internationally recognized standards.
The Biomedical Engineering Program was established in 2006 under the name Medical Equipment Engineering, as the first program of its kind in Yemen. In 2013, it was renamed Biomedical Engineering to align with international standards and accreditation bodies. During its development process, the study system was also changed from a semester‑based system to a credit‑hour system.
The program has continuously pursued growth and advancement, undergoing several development phases, the most recent of which occurred in 2023. This development is clearly reflected in its modern curriculum and advanced laboratories.
The Department of Biomedical Engineering has participated in numerous scientific exhibitions and competitions at both local and international levels, achieving outstanding accomplishments that reflect the creativity and academic excellence of its students and faculty. Among the most notable achievements are:
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First place in the Arab Innovation Network Competition and sixth place among U.S. universities in the World Health Organization Engineering Competition for the project:
Design Low Cost Leakage Current Tester. -
Second place in the Babakr Award for Innovation, for the project:
Design of Low Cost Ventilator Performance Analyzer. -
Third place in the Babakr Award for Innovation, for the project:
Smart Mobile Patient Chair. -
First place in the Best Graduation Project Competition at the University of Science and Technology, organized by the Center for Excellence Development and sponsored by the Capital Secretariat in 2012, for the project:
Developing Method for Lung Sounds Acquisition and Processing. -
Qualification to the final stage of the UBORA Design Competition 2018 held in Italy, for the project:
Remote Monitoring of Critical Physiological Parameters Using Smartphone (RMCPS).
The Biomedical Engineering Program aims to prepare academically and professionally qualified graduates capable of applying engineering principles in the medical field to meet the needs of the local and regional labor markets. This is achieved through a qualified academic staff, modern curricula, advanced laboratories, and an educational environment that supports creativity and innovation, in accordance with international quality and academic accreditation standards. The program also seeks to contribute to applied research, community service, and support for the healthcare sector.
The Biomedical Engineering Program aims to:
- Provide students with the knowledge and skills related to fundamental principles, operational requirements, design standards, and engineering applications in the field of biomedical engineering.
- Contribute to meeting the needs of the local and regional labor markets by preparing highly qualified engineers.
- Encourage students to innovate and develop creative solutions in medical technologies in support of scientific research efforts.
- Contribute to community service through applied research that offers solutions to enhance and improve the healthcare sector.
- Strengthen commitment to ethical and professional standards and regulatory requirements in medical technology, with an emphasis on continuous self‑learning.
Upon successful completion of the Bachelor’s Program in Biomedical Engineering, graduates will be able to:
A: Knowledge and Understanding
A1: Identify the fundamental principles of mathematics, science, and engineering related to biomedical engineering, and apply them in analyzing and solving engineering problems.
A2: Recognize the impact of biomedical engineering solutions on society and the environment within both local and global contexts.
A2: Recognize the impact of biomedical engineering solutions on society and the environment within both local and global contexts.
B: Intellectual Skills
B1: Formulate and solve biomedical engineering problems by applying engineering, scientific, and mathematical principles.
B2: Analyze data and derive engineering conclusions by conducting experiments relevant to biomedical engineering.
B2: Analyze data and derive engineering conclusions by conducting experiments relevant to biomedical engineering.
C: Professional and Practical Skills
C1: Utilize knowledge of mathematics, science, and engineering principles to solve biomedical engineering‑related problems.
C2: Apply engineering design, modeling, and simulation of biomedical systems to address real‑world problems in biomedical applications.
C3: Use engineering tools and modern technologies in the design and implementation of biomedical engineering systems.
C4: Develop solutions to biomedical engineering problems while considering public health, safety, cultural, social, and environmental factors.
C2: Apply engineering design, modeling, and simulation of biomedical systems to address real‑world problems in biomedical applications.
C3: Use engineering tools and modern technologies in the design and implementation of biomedical engineering systems.
C4: Develop solutions to biomedical engineering problems while considering public health, safety, cultural, social, and environmental factors.
D: General Skills
D1: Communicate effectively with a wide range of audiences, and work efficiently as independent individuals and as members or leaders within multidisciplinary teams.
D2: Recognize and apply professional and ethical responsibilities associated with engineering practice.
D3: Acquire and apply new knowledge, and utilize modern technological applications based on continuous self‑learning.
D2: Recognize and apply professional and ethical responsibilities associated with engineering practice.
D3: Acquire and apply new knowledge, and utilize modern technological applications based on continuous self‑learning.
Upon successfully completing the requirements of the Biomedical Engineering Program, the graduate will be:
- Analytical: able to identify, formulate, and solve biomedical engineering problems by applying engineering and fundamental scientific principles.
- Technically Skilled: capable of using engineering techniques, skills, and modern technologies in the installation, maintenance, and calibration of medical equipment.
- Design‑Oriented: proficient in designing and developing biomedical systems to meet required specifications within defined real‑world constraints in medical applications.
- Safety‑Compliant: able to apply safety procedures in biomedical engineering in accordance with international standards.
- Interdisciplinary: capable of analyzing interactions among various disciplines within biomedical systems.
- Sustainability‑Aware: considering the impact of biomedical engineering solutions on society and the environment within the framework of sustainable development.
- Research‑Competent: able to conduct literature‑based research in biomedical engineering and analyze data to reach accurate conclusions.
- Communicative and Collaborative: capable of working effectively as an individual, or as a member or leader of multidisciplinary teams, and communicating efficiently with a wide range of audiences.
- Ethically Responsible and Lifelong Learner: committed to continuous learning and adherence to professional ethics and responsibilities.
- Facility‑Preparation Specialist: able to prepare healthcare facilities by developing medical equipment specifications, analyzing tenders, and making appropriate decisions in accordance with international standards.
To be considered a graduate of the program, the student must fulfill the following requirements:
- Successfully complete 148 credit hours required by the program.
- Satisfy all field training requirements specified in the study plan.
- Fulfill all graduation project requirements, including the presentation, final report, and practical implementation of the project.
The Biomedical Engineering Program encompasses a wide range of knowledge areas, which can be classified as follows:
- General Culture / Skills
- Basic Sciences
- Mathematics
- Electrical and Electronic Engineering
- Computer Programming and Control
- Biomedical Engineering Specializations
- Practical Training and Projects
- Elective Biomedical Engineering Specializations
Biomedical engineering graduates can work in a wide range of fields, including:
- Maintenance, operation, and management of medical equipment in public and private hospitals and medical centers.
- Companies and institutions involved in the manufacturing, supply, and distribution of medical devices and equipment.
- Prosthetics centers, rehabilitation technologies, and assistive devices.
- Health information systems, digital medical technologies, and medical data analysis.
- Quality control units in hospitals to improve the performance and efficiency of medical equipment.
- Participation in managing healthcare facility installation projects, ensuring quality and safety standards.
- Scientific research, postgraduate studies, and work in professional education and training.
- Medical services management in various institutions.
- Medical device sales and marketing.
- Employment in universities, research centers, technical colleges, and institutes.
- Providing technical consultations for equipping, designing, and furnishing healthcare facilities.
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